Length: 2 Days

System & Software Testing for Safety-Critical Applications Training by Tonex

Engineering Management Workshop (EMW) by Tonex

Built for teams who verify complex, high-assurance systems, this program sharpens strategy, technique, and evidence-based reporting for safety certification. Participants learn to connect hazards, requirements, and tests into a defensible safety case while scaling coverage across real-time and embedded contexts.

Cybersecurity intersects safety at every layer—threats can trigger hazardous behavior, and mitigations must be validated like any other safety requirement. You’ll practice designing tests that verify both safety controls and security hardening without inflating cycle time. By the end, you’ll know how to structure traceability, automate checks, and present objective results that satisfy regulators and program leadership.

Learning Objectives

  • Build a risk-driven safety test strategy aligned to standards and assurance cases
  • Translate safety requirements and hazards into verifiable, prioritized test conditions
  • Design tests for real-time and embedded behaviors, timing, and concurrency
  • Apply MC/DC and structural coverage evidence to complement scenario testing
  • Engineer stress, fault-injection, and robustness campaigns with actionable metrics
  • Integrate continuous verification, tooling, and analytics into delivery pipelines
  • Write one objective on cybersecurity: validate that cybersecurity controls do not degrade safety and that safety mechanisms withstand cybersecurity threats

Audience

  • Testing Teams and Leads
  • QA Engineers and Test Architects
  • Software Assurance and Compliance Personnel
  • Systems and Embedded Software Engineers
  • Safety Managers and Certification Specialists
  • Cybersecurity Professionals

Workshops

  • Fault-injection exercise
  • Writing a full test plan for a safety-critical feature
  • MC/DC coverage walkthrough

Module 1 — Safety Test Strategy and Planning

  • Map hazards to verification scope
  • Define test architecture and tiers
  • Prioritize by risk and impact
  • Plan evidence and acceptance criteria
  • Align with standards and regulators
  • Resource, schedule, and readiness gates

Module 2 — Requirements-Based Testing

  • Structure clear, testable requirements
  • Derive scenarios and acceptance tests
  • Create equivalence classes, boundaries
  • Trace requirements–tests–defects–evidence
  • Manage change, variants, configurations
  • Measure coverage of functional intent

Module 3 — Real-Time & Embedded Tests

  • Timing constraints and deadlines
  • Concurrency, race, and jitter checks
  • ISR, scheduler, and priority behaviors
  • Hardware–software interface validation
  • Sensor/actuator stimulus modeling
  • Fault containment and graceful degradation

Module 4 — Structural Coverage Analysis

  • Statement/branch coverage foundations
  • MC/DC design and justification
  • Path feasibility and constraint handling
  • Handling dead code and deactivated code
  • Tool qualification and credibility
  • Merging coverage with scenario results

Module 5 — Stress, Fault-Injection, Robustness

  • Overload, resource, and timing stressors
  • Interface fuzzing and protocol mutation
  • Power, clock, and memory disturbances
  • Sensor spoofing and invalid ranges
  • Watchdogs, resets, and recovery paths
  • Define robustness metrics and thresholds

Module 6 — Safety Regression & Non-Functional

  • Build minimal, risk-driven regressions
  • Performance and latency observability
  • Reliability and endurance strategies
  • Safety logging and diagnosability checks
  • Usability and human-factors verification
  • Environmental and platform portability

Module 7 — Automated Tools & CI Verification

  • Test data and oracle management
  • Deterministic replay and flakiness control
  • Hardware-in-the-loop orchestration
  • Coverage gates and evidence packaging
  • Static/dynamic analysis integration
  • Dashboards, trends, and audit trails

Elevate your safety assurance practice with Tonex. Enroll your team today to master risk-driven testing, produce defensible evidence, and ship safety-critical software with confidence.

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